def plot_2d_clusters(X, labels, centers):
"""
Given an observation array, a label vector, and the location of the centers
plot the clusters
"""
clabels = set(labels)
K = len(clabels)
if len(centers) != K:
raise ValueError("Expecting the number of unique labels and centres to"
" be the same!")
# Plot the true clusters
figure(figsize=(10, 10))
ax = gca()
vor = Voronoi(centers)
voronoi_plot_2d(vor, ax)
colors = cm.hsv(np.arange(K)/float(K))
for k, col in enumerate(colors):
my_members = labels == k
scatter(X[my_members, 0], X[my_members, 1], c=col, marker='o', s=20)
for k, col in enumerate(colors):
cluster_center = centers[k]
scatter(cluster_center[0], cluster_center[1], c=col, marker='o', s=200)
axis('tight')
axis('equal')
title('Clusters')
def PlotMonthBar(self):
"""活跃时间柱形图"""
date_list = GetNDayList(self.today_dt, 30)
md_list = list(map(ymd2md, date_list))
fig, ax = plt.subplots(figsize=(8, 6))
days = np.arange(30)
plt.bar(days,
height=self.activate,
label='activate',
color=cm.hsv(0.6),
alpha=0.8)
avg_hours = self.activate.mean()
plt.axhline(y=avg_hours, ls=":", lw=4, c=cm.hsv(0))
# params
fontsize = 20
plt.legend(fontsize=fontsize - 2, loc='upper left')
plt.xlabel(u"日期", fontsize=fontsize)
plt.ylabel(u"时长(小时)", fontsize=fontsize)
plt.xticks(fontsize=fontsize - 5)
plt.yticks(fontsize=fontsize)
plt.xticks(ticks=range(0, 30 + 1, 4), labels=md_list[::4])
plt.title("近一个月学习投入情况(平均{0:.2f}小时)".format(avg_hours),
fontsize=fontsize + 5)
plt.savefig(self.fig_path, dpi=150, bbox_inches='tight')
plt.close()
def test_matplotlib_rainbow():
fig = plt.figure(figsize=(6, 4), dpi=96)
ax = fig.add_subplot(111)
#im = np.array(list(list([0,0,0,0.8] for _ in range(64)) for _ in range(64)))
im = np.random.random((64, 64, 4))
ax.imshow(im, aspect='auto', cmap=cm) # cmap=cm cmap=cm.hsv
ax.imshow(im, aspect='auto', extent=[100, 228, 100, 228], origin='lower')
for i in range(0, 360, 4):
ax.plot(i, i, 'o', color=getColStr(*getHSV2RGB(i / 360.0)))
ax.plot(np.arange(360) - 30, np.arange(360) - 10, 'm')
ax.plot(np.arange(360) - 30, np.arange(360), getColStr(*getHSV2RGB(0.5)))
# ax.plot(np.arange(360) + 10, np.arange(360) - 30, cmap=cm.hsv) # BAD
ax.set_color_cycle([cm.hsv(_ / 360.0) for _ in range(360)])
for i in range(360):
ax.plot(np.arange(i, i + 2) + 10,
np.arange(i, i + 2) - 30,
linewidth=3)
# print ax._get_lines.get_next_color() # matplotlib >= 3 ?
# print ax._get_lines.color_cycle # matplotlib >= 3 ?
print ax.get_lines()[-1].get_color()
print ax.get_lines()[-360].get_color()
ax.set_color_cycle([cm.hsv(_ / 8.0) for _ in range(8)])
for i in range(8):
ax.plot(np.arange(360) - 5 - i * 2, np.arange(360) - 30)
ax.set_xlim([-50, 400])
ax.set_ylim([-50, 400])
plt.show()
def draw_lines(paras, u_set, v_set, pic_path):
""" 1つの画像にエピポーラ線描画 """
# 画像の読み込み
img = np.array(Image.open(pic_path))
# 画像のサイズ
height, width, _ = img.shape
# エピポーラ線を1本ずつ描画
for i, (a, b, c) in enumerate(paras):
line = np.empty((0, 2))
# x=0, w, y=0, hとの4交点のうち、画像枠内にある2点を選択
u1 = -c / a
u2 = -(b * height + c) / a
v1 = -c / b
v2 = -(a * width + c) / b
if 0 <= u1 <= width:
line = np.append(line, np.array([[u1, 0]]), axis=0)
if 0 <= u2 <= width:
line = np.append(line, np.array([[u2, height]]), axis=0)
if 0 <= v1 <= height:
line = np.append(line, np.array([[0, v1]]), axis=0)
if 0 <= v2 <= height:
line = np.append(line, np.array([[width, v2]]), axis=0)
# 2点を結ぶ線分を描画
plt.plot(line[:, 0],
line[:, 1],
marker="None",
color=cm.hsv(i / len(u_set)))
data_name = [i for i in range(len(u_set))]
# 対応点のプロット
for (i, j, k) in zip(u_set, v_set, data_name):
plt.plot(i, j, 'o', color=cm.hsv(k / len(u_set)))
plt.annotate(str(k), xy=(i, j))
# 画像の読み込み
img = np.array(Image.open(pic_path))
# 画像の表示
plt.imshow(img)
plt.show()
plt.close()
def plot_spd2(Is, filename=None):
rc('axes', linewidth=0.5)
rc('font', size=7, family='serif')
rc('xtick', top=True, direction='in')
rc('xtick.major', size=2.5, width=0.5)
rc('ytick', right=True, direction='in')
rc('ytick.major', size=2.5, width=0.5)
fig = plt.figure(figsize=(len(Is) * 5, 5), dpi=100)
for k, I in enumerate(Is):
ax = fig.add_subplot(100 + len(Is) * 10 + (k + 1))
imagedims = I.shape[:2]
vals, vecs = np.linalg.eig(I)
FA = np.sqrt(0.5 * (vals[..., 0]**2 + vals[..., 1]**2) -
vals[..., 0] * vals[..., 1])
FA /= np.linalg.norm(Is[0], axis=(-2, -1))
lvals = np.log(vals)
GA = np.sqrt(0.5 * (lvals[..., 0]**2 + lvals[..., 1]**2) -
lvals[..., 0] * lvals[..., 1])
GA /= 1 + GA
angles = 180 + 180 * np.arctan2(vecs[..., 0, 0], vecs[..., 1,
0]) / np.pi
vals /= 0.5 * vals.max()
X, Y = np.meshgrid(np.arange(imagedims[0]), np.arange(imagedims[1]))
XY = np.vstack((X.ravel(), Y.ravel())).T
ec = EllipseCollection(vals[..., 0],
vals[..., 1],
angles,
units='x',
offsets=XY,
transOffset=ax.transData,
edgecolors=0.8 * cm.hsv(GA.ravel())[:, :-1],
facecolors=1.0 * cm.hsv(GA.ravel())[:, :-1],
linewidths=0.5)
ax.add_collection(ec)
ax.autoscale_view()
ax.invert_yaxis()
ax.axis("equal")
if filename is None:
plt.show()
else:
canvas = FigureCanvasAgg(fig)
canvas.print_figure(filename)
plt.close(fig)
def plot_2d_clusters(X, labels, centers):
"""
Given an observation array, a label vector, and the location of the centers
plot the clusters
"""
clabels = set(labels)
K = len(clabels)
if len(centers) != K:
raise ValueError("Expecting the number of unique labels and centres to"
" be the same!")
# Plot the true clusters
figure(figsize=(10, 10))
ax = gca()
vor = Voronoi(centers)
voronoi_plot_2d(vor, ax)
colors = cm.hsv(np.arange(K) / float(K))
for k, col in enumerate(colors):
my_members = labels == k
scatter(X[my_members, 0], X[my_members, 1], c=col, marker='o', s=20)
for k, col in enumerate(colors):
cluster_center = centers[k]
scatter(cluster_center[0], cluster_center[1], c=col, marker='o', s=200)
axis('tight')
axis('equal')
title('Clusters')
def plot_spectra_grid(file_set,protein,ligands,ligand):
grid = len(protein) + len(ligand)
# pick the correct file
proteins = file_set.keys()
index = ligands.index(ligand)
file = file_set[protein][index]
# pick a title
title = "%s - %s" %(protein, ligand)
# make a dataframe
df = xml2df(file)
# plot the spectra
fig = plt.figure();
ax = df['fluorescence'].iloc[:,12].plot(ylim=(0,100000),legend=False, linewidth=4,color='m');
ax.axvline(x=480,color='0.7',linestyle='--');
for i in range(11):
#s = df['fluorescence'].iloc[:,i].plot(ylim=(0,100000),linewidth=3,c=cm.hsv(i*15), ax = ax, title=title);
df['fluorescence'].iloc[:,i].plot(ylim=(0,100000),linewidth=3,c=cm.hsv(i*15), ax = ax);
df['fluorescence'].iloc[:,11+i].plot(ylim=(0,100000),legend=False, linewidth=4,c=cm.gray(i*15+50), ax = ax, fontsize =20);
sns.despine()
plt.xlim(320,600)
plt.yticks([])
plt.xlabel('wavelength (nm)', fontsize=20)
plt.tight_layout();
plt.savefig('%s.eps'%title, type='eps', dpi=1000)
def pathsByLength(geo, targ_dict, background=True):
"""
Overlay paths all on one tree colored by path length.
"""
lengths = [targ_dict[s]['pathLength'] for s in targ_dict.keys()]
plt.figure(figsize=(4,6))
if background:
branchpts = []
# Plot by branches
for b in geo.branches:
branchpts.append([[n.x, n.y] for n in b.nodes])
for b in branchpts: # Plot the background skeleton first
for s in range(len(b)-1):
plt.plot([b[s][0], b[s+1][0]],
[b[s][1], b[s+1][1]], color='black', alpha=0.3)
# Plot each thing
pDF = PathDistanceFinder(geo, geo.soma)
for t in targ_dict.keys():
targ = [seg for seg in geo.segments if
seg.filamentIndex==targ_dict[t]['closestFil']][0]
path = pDF.pathTo(targ) # This makes sure the colors range the whole spectrm
pcolor = (targ_dict[t]['pathLength']-min(lengths))/(max(lengths)-min(lengths))
for p in range(len(path)-1):
c0, c1 = path[p].coordAt(0), path[p+1].coordAt(0)
plt.plot([c0[0], c1[0]], [c0[1], c1[1]], linewidth=3,
color=cm.hsv(pcolor), alpha=0.7)
plt.show()
def PlotWaterFall(self):
"""活跃时间瀑布图"""
fontsize = 20
st = time.time()
fig, axes = joypy.joyplot(self.frequent,
column=['hour'],
by="date",
grid=True,
xlabelsize=fontsize,
ylabelsize=fontsize,
figsize=(10, 6),
ylim='own',
fill=True,
linecolor=None,
background=None,
xlabels=True,
ylabels=True,
range_style='all',
x_range=np.arange(25),
color=cm.hsv(0.68))
# params
plt.xlabel(u"小时", fontsize=fontsize)
plt.xticks(ticks=list(range(0, 24, 4)) + [24],
labels=list(range(0, 24, 4)) + [24],
fontsize=fontsize)
plt.title(u"近一周学习情况", fontsize=fontsize + 5)
plt.grid(linestyle="--", alpha=0.45)
plt.savefig(self.fig_path, dpi=150, bbox_inches='tight')
plt.close()
def PlotDayBar(self):
"""活跃时间柱形图"""
fig, ax = plt.subplots(figsize=(8, 6))
hours = np.arange(24)
# bar
plt.bar(hours,
height=self.activate_data,
label='activate',
color=cm.hsv(0.4),
alpha=0.8)
# params
fontsize = 20
plt.legend(fontsize=fontsize - 2, loc='upper left')
plt.xlabel(u"小时", fontsize=fontsize)
plt.ylabel(u"时长(秒)", fontsize=fontsize)
plt.xticks(fontsize=fontsize - 5)
plt.yticks(fontsize=fontsize)
plt.xticks(ticks=range(24), labels=hours)
sumhours = sum(self.activate_data) / 3600
plt.title("今日学习投入情况 (%.2f 小时)" % sumhours, fontsize=fontsize + 5)
plt.savefig(self.fig_path, dpi=150, bbox_inches='tight')
plt.close()
def scatter_all_seeds(results, title):
plt.close()
results = np.array(results)
for seed in seeds:
mask = results[:, 0] == int(seed)
time = results[mask, 1] / 60 / 60
error = results[mask, 2]
if is_regression:
error = np.log10(error)
plt.plot(time,
error,
linestyle='solid',
linewidth=.5,
marker='o',
markersize=5,
color=cm.hsv(float(seed) / number_seeds, 1),
alpha=.75)
plt.xlabel("Time (h)")
if is_regression:
plt.ylabel("log(RMSE)")
else:
plt.ylabel("% class. error")
plt.ylim(0, 100)
plt.margins(0.1, 0.1)
plt.title(title)
plt.savefig("%s/plots%s/trajectories-%s.scatter.png" %
(os.environ['AUTOWEKA_PATH'], suffix, title))
def animate():
global graph, pfad, kreis, ctr, cnt
# neuen Punkt generieren
pts, R, attached = dla()
# Pfad und Kreis updaten
x,y = zip(*pts)
pfad.set_data(x, y)
kreis.set_data([ctr + R*cos(phi) for phi in linspace(0,2*pi,100)],
[ctr + R*sin(phi) for phi in linspace(0,2*pi,100)])
# und letzten Punkt permanent ausgeben, falls angelagert
if attached:
graph.scatter(x[-1], y[-1], s=4, c=cm.hsv(cnt), linewidth=0)
cnt += 0.1
# Groesse anpasse
graph.axis((0,M-1,0,M-1))
# periodisch die Funktion wieder aufrufen, wenn noch ok
if R >= 0.4*M:
print "Radius %d ist zu gross geworden" % R
else:
figure.canvas.manager.window.after(200, animate)
figure.canvas.draw()
def draw_meshgrid(fig,ax):
# Draw mesh for each red with skipping
for i in range(0,sLut_3d_size,sSkip):
ax.plot_wireframe(s**t[i,0:
sLut_3d_size:sSkip,0:sLut_3d_size:sSkip,0],
s**t[i,0:sLut_3d_size:sSkip,0:sLut_3d_size:sSkip,1],
s**t[i,0:sLut_3d_size:sSkip,0:sLut_3d_size:sSkip,2],
color=cm.hsv(float(i)/float(sLut_3d_size)))
# Draw last mesh if skipped in the loop above
if((sLut_3d_size - 1) % sSkip):
ax.plot_wireframe(s**t[sLut_3d_size - 1,0:
sLut_3d_size:sSkip,0:sLut_3d_size:sSkip,0],
s**t[sLut_3d_size - 1,0:sLut_3d_size:sSkip,0:sLut_3d_size:sSkip,1],
s**t[sLut_3d_size - 1,0:sLut_3d_size:sSkip,0:sLut_3d_size:sSkip,2],
color=cm.hsv(1.0))
def plot_tsne(self, window, vector_size):
cprint("モデルのt-NSEによる出力を始めます。", "yellow")
os.chdir(self.model_dir)
model = Doc2Vec.load("model_v{}_w{}".format(vector_size, window))
figsize(15, 15)
plt.rcParams['font.family'] = 'IPAexGothic'
tag_name = [i.split("_")[0] for i in os.listdir(self.train_dir)]
train_data = [model[tag] for tag in tag_name]
reduced_data = TSNE(n_components=2,
random_state=0).fit_transform(train_data)
for i, tag in enumerate(tag_name):
plt.scatter(reduced_data[i, 0],
reduced_data[i, 1],
color=cm.hsv(i / 160))
texts = [
plt.text(reduced_data[i, 0],
reduced_data[i, 1],
str(tag_name[i]),
ha='center',
va='center') for i in range(len(reduced_data))
]
adjust_text(texts)
plt.xticks(color="None")
plt.yticks(color="None")
os.chdir(self.image_dir)
plt.savefig("image_tsne_w{}_v{}.png".format(window, vector_size))
def scatter_all_seeds(results, title):
plt.close()
results = np.array(results)
for seed in seeds:
mask = results[:, 0] == seed
time = results[mask, 1].astype(float)
time = np.divide(time, 3600.)
error = results[mask, 2].astype(float)
if is_regression:
error = np.log10(error)
plt.plot(time,
error,
linestyle='solid',
linewidth=.5,
color=cm.hsv(float(seed) / number_seeds, 1),
alpha=.75)
plt.xlabel("Time (h)")
if is_regression:
plt.ylabel("log(RMSE)")
else:
plt.ylabel("% class. error")
plt.ylim(0, 100)
plt.margins(0.1, 0.1)
plt.title(title)
plt.savefig("%s/plots%s/smac-runs-%s.individual.png" %
(os.environ['AUTOWEKA_PATH'], suffix, title))
def plot_2Ddata(X, y, dots_alpha=.5, noticks=False):
colors = cm.hsv(np.linspace(0, .7, len(np.unique(y))))
for i, label in enumerate(np.unique(y)):
plt.scatter(X[y==label][:,0], X[y==label][:,1], color=colors[i], alpha=dots_alpha)
if noticks:
plt.xticks([])
plt.yticks([])
def colorflow(fx, fy, rgba=False, zero_mean=True):
"""Create a colored flow field from (fx,fy) flow
Optical flow fields are represented with color as angle and saturation
as magnitude. This implementation optionally represents magntiude in
the alpha channel for better blending with the original image.
Args:
fx,fy: The flow fields
Keyword Args:
rgba: If True, represent magnitude with an alpha channel rather than
saturation (default: False)
zero_mean: Remove the mean of the flow field before computing the
visualization. This remove the global interpretability of the flow
field, but makes better utilization of the color space
"""
if zero_mean:
fx, fy = fx - fx.mean(), fy - fy.mean()
# angle is color, magnitude is saturation
angle, magnitude = np.arctan2(fy, fx), np.sqrt(fx**2 + fy**2)
color, saturation = angle / np.pi * 0.5 + 0.5, magnitude / magnitude.max()
rgb = cm.hsv(color)
# compute the colored flow field
if rgba:
rgb[..., 3] = saturation
else:
rgb = 1.0 - saturation[..., None] * (1.0 - rgb[..., :3])
return rgb
def plot_tsne_pca_new(data, labels):
max_label = max(labels)
max_items = np.random.choice(range(data.shape[0]), size=1200, replace=False) #1370
pca = PCA(n_components=2).fit_transform(data[max_items,:].todense())
tsne = TSNE().fit_transform(PCA(n_components=50).fit_transform(data[max_items,:].todense()))
idx = np.random.choice(range(pca.shape[0]), size=300, replace=False)
# print(max_items)
label_subset = labels[max_items]
label_subset = [cm.hsv(i/max_label) for i in label_subset[idx]]
# f, ax = plt.subplots(1, 2, figsize=(14, 6))
# ax[0].scatter(pca[idx, 0], pca[idx, 1], c=label_subset)
# ax[0].set_title('PCA Cluster Plot')
# ax[1].scatter(tsne[idx, 0], tsne[idx, 1], c=label_subset)
# ax[1].set_title('TSNE Cluster Plot')
f, ax = plt.subplots(1)
ax.scatter(tsne[idx, 0], tsne[idx, 1], c=label_subset)
ax.set_title('TSNE Cluster Plot')
f.savefig('./drive/My Drive/ALDA_Project/clusters_news.png')
def histogram(names, values, title="", xlabel="", ylabel=""):
if not names or not values:
return _empty_chart(title, xlabel, ylabel)
figure = mpl_Figure()
canvas = mpl_FigureCanvas(figure)
figure.set_canvas(canvas)
ax = figure.add_subplot(111, projection=BasicChart.name)
colors = [cm.hsv(float(i)/len(values)) for i in xrange(len(values))]
n, bins, patches = ax.hist(
values, 10, normed=0, histtype="bar", label=names, color=colors)
for label in ax.xaxis.get_ticklabels():
label.set_rotation(-35)
label.set_horizontalalignment('left')
ax.plegend = ax.legend(loc="upper right", fancybox=True, shadow=True)
ax.xaxis.set_major_formatter(mpl_FuncFormatter(
lambda time, pos: utils.time_to_string(time)[:-7]))
ax.set_xlim(xmin=0)
ax.set_title(title)
ax.set_xlabel(xlabel)
ax.set_ylabel(ylabel)
return ChartWidget(figure, xlock=True)
def style_map(i, j, op_i, op_string, op_j, strength):
"""define the plot style for a given coupling."""
key = (op_i, op_string, op_j)
style = {}
style['linewidth'] = np.abs(strength) * matplotlib.rcParams['lines.linewidth']
style['color'] = hsv(norm_angle(np.angle(strength)))
return style
def pair_scatter(experiments, pair_on, save_path, markers=["*", "o"]):
gpu_ids = np.unique(experiments["str_gpu_id"])
pair_vals = np.unique(experiments[pair_on])
if len(pair_vals) != 2:
raise Exception("The pair_on parameter is invalid")
colors = cm.hsv((255 * np.arange(len(gpu_ids)) / len(gpu_ids)).astype("uint8"))
plt.figure()
for i, gpu_id in enumerate(gpu_ids):
experiment_inds = experiments["str_gpu_id"] == gpu_id
experiments_tmp = experiments[experiment_inds]
exps = list()
for pair_val in pair_vals:
exp = experiments_tmp[experiments_tmp[pair_on] == pair_val]
exp = exp.iloc[np.argmax(exp["iter_time_mu"].values)]
exps.append(exp)
exps = pd.DataFrame(exps)
plt.plot(
exps["batch_size"],
exps["iter_time_mu"],
color=colors[i],
label="GPU IDs: " + gpu_id,
)
for pair in range(2):
label = None
if i == 0:
label = pair_vals[pair]
plt.scatter(
exps["batch_size"].iloc[pair],
exps["iter_time_mu"].iloc[pair],
color="k",
marker=markers[pair],
label=label,
)
plt.legend(bbox_to_anchor=(1, 1))
plt.xlabel("batch size")
plt.ylabel("avg iter time (s)")
ylim = list(plt.ylim())
ylim[0] = 0
plt.ylim(ylim)
batch_sizes = np.unique(experiments["batch_size"])
batch_sizes = batch_sizes[batch_sizes < plt.xlim()[1]]
plt.xticks(batch_sizes)
plt.savefig(save_path, dpi=120, bbox_inches="tight")
plt.close()
def histogram(names, values, title="", xlabel="", ylabel=""):
if not names or not values:
return _empty_chart(title, xlabel, ylabel)
figure = mpl_Figure()
canvas = mpl_FigureCanvas(figure)
figure.set_canvas(canvas)
ax = figure.add_subplot(111, projection=BasicChart.name)
colors = [cm.hsv(float(i) / len(values)) for i in xrange(len(values))]
n, bins, patches = ax.hist(values,
10,
normed=0,
histtype="bar",
label=names,
color=colors)
for label in ax.xaxis.get_ticklabels():
label.set_rotation(-35)
label.set_horizontalalignment('left')
ax.plegend = ax.legend(loc="upper right", fancybox=True, shadow=True)
ax.xaxis.set_major_formatter(
mpl_FuncFormatter(lambda time, pos: utils.time_to_string(time)[:-7]))
ax.set_xlim(xmin=0)
ax.set_title(title)
ax.set_xlabel(xlabel)
ax.set_ylabel(ylabel)
return ChartWidget(figure, xlock=True)
def plot(self, X, class_label):
rcParams.update({"legend.fontsize": 6})
# get the class labels
list_class_label = np.unique(class_label)
nclass = len(list_class_label)
# permutation of indices
# 0 = sepal_length, 1 = sepal_width, 2 = petal_length, 3 = petal_width
list_permutation = [[[0, 1], [0, 2], [0, 3]], [[1, 2], [1, 3], [2, 3]]]
# generate figure showing data for all possible combinations of 2 features
nrow = 2
ncol = 3
fig, axs = plt.subplots(nrow, ncol, figsize=(10, 7))
fig.suptitle("Iris Data")
for row in range(nrow):
for col in range(ncol):
for i, classname in enumerate(list_class_label):
idx = np.where(class_label == classname)[0]
# scatter plot in x0-x1 plane where x0,x1 are entries 0,1 from list_permutation
axs[row,
col].scatter(X[list_permutation[row][col][0], idx],
X[list_permutation[row][col][1], idx],
color=cm.hsv((i + 1) / nclass),
s=15,
label=classname)
axs[row, col].set_xlabel(
self.feature[list_permutation[row][col][0]])
axs[row, col].set_ylabel(
self.feature[list_permutation[row][col][1]])
axs[row, col].legend(loc="upper left")
def main():
# generate a fresh DiGraph
generatedigraph(G)
# user inputs center nodes
node = input("Please enter a center node, or press ENTER to quit: ")
while (node != ""):
center_nodes.append(int(node))
node = input("Please enter a center node, or press ENTER to quit: ")
# obtains the Voronoi cells
cells = nx.voronoi_cells(G, center_nodes)
partition = set(map(frozenset, cells.values()))
cells_list = list(sorted(map(sorted, partition)))
print(cells_list)
# adds color corresponding to Voronoi cell
for i in range(0, len(cells_list)):
for j in range(0, len(cells_list[i])):
color_map.append(cm.hsv(1 / (i + .5)))
pos = nx.spring_layout(G)
nx.draw_networkx_nodes(G,
pos,
with_labels=True,
node_color=color_map,
edge_color='k',
node_size=200,
alpha=0.5)
pylab.title('Voronoi cells', fontsize=15)
pylab.show()
def save(img, mu, counter):
batch_size, out_shape = img.shape[0], img.shape[1:3]
marker_list = ["o", "v", "s", "|", "_"]
directory = os.path.join('../images/landmarks/')
if not os.path.exists(directory):
os.makedirs(directory)
s = out_shape[0] // 8
n_parts = mu.shape[-2]
mu_img = (mu + 1.) / 2. * np.array(out_shape)[0]
steps = batch_size
step_size = 1
for i in range(0, steps, step_size):
plt.imshow(img[i])
for j in range(n_parts):
plt.scatter(mu_img[i, j, 1],
mu_img[i, j, 0],
s=s,
marker=marker_list[np.mod(j, len(marker_list))],
color=cm.hsv(float(j / n_parts)))
plt.axis('off')
fname = directory + str(counter) + '_' + str(i) + '.png'
plt.savefig(fname, bbox_inches='tight')
plt.close()
def createPlotWithCol(self, dataFrames, column, args, doc):
fig = plt.figure(figsize=(10, 5))
ax = fig.add_subplot(111)
ax.set_position([0.1, 0.35, .85, .6])
fishes_names = [i for i in itertools.chain.from_iterable(args.values())]
colors = cmx.hsv(np.linspace(0, 1, len(fishes_names)))
if column == 'Area' or column == 'Circularity':
for fishName, color in zip(fishes_names, colors):
data_len = len(getDataByColumn(fishName, column, dataFrames))
x_perc = np.linspace(0, 100, data_len)
ax.plot(x_perc, getDataByColumn(fishName, column, dataFrames), label=fishName, color=color)
x_axix_format = '%.0f%%'
xticks = mtick.FormatStrFormatter(x_axix_format)
ax.xaxis.set_major_formatter(xticks)
ax.grid(True)
plt.xlabel('Number of slice (%)', labelpad=5)
plt.ylabel(self.unitsInfo[column])
ax.legend(loc='center', bbox_to_anchor=(0.5, -0.35), ncol=6, prop={'size': 12})
imgdata = BytesIO()
fig.savefig(imgdata, format='png')
imgdata.seek(0)
img = Image(imgdata)
img._restrictSize(doc.width, doc.height)
return img
def find_shorts_open_circuits(datapoints,
dev_name="various devices",
lot='lot'):
wafernames = []
colors = cm.hsv(np.linspace(0, 1, 10))
datapoints = sorted(datapoints, key=lambda x: x.wafername)
for i in range(0, len(datapoints)):
wafernames = np.append(wafernames, datapoints[i].wafername)
wafernames = list(set(wafernames))
fig, ax = plt.subplots()
fig.suptitle("Potential Shorts/Open Circuits for: " + lot + " Device: " +
dev_name)
for i in range(0, len(datapoints)):
for j in range(0, len(wafernames)):
plt.subplot(int(len(wafernames) / 3) + 1, 3, j + 1)
wafer_outline = plt.Circle((5000, 30000),
50000,
color='blue',
fill=False)
plt.xlabel("X Coordinate")
plt.ylabel("Y Coordinate")
plt.ylim(-25000, 85000)
plt.xlim(-50000, 60000)
if datapoints[i].Vcomp - .01 <= datapoints[
i].Vmeas <= datapoints[i].Vcomp + .01:
if datapoints[i].wafername == wafernames[j]:
if datapoints[i].wafername != datapoints[
i - 1].wafername or i == 0:
plt.plot(datapoints[i].x_coord,
datapoints[i].y_coord,
color=colors[j],
marker='o',
label=str(wafernames[j]))
plt.legend()
plt.gcf().gca().add_artist(wafer_outline)
else:
plt.plot(datapoints[i].x_coord,
datapoints[i].y_coord,
color=colors[j],
marker='o')
elif datapoints[i].Icomp - .00001 <= datapoints[
i].Imeas <= datapoints[i].Icomp + .00001:
if datapoints[i].wafername == wafernames[j]:
if datapoints[i].wafername != datapoints[
i - 1].wafername or i == 0:
plt.plot(datapoints[i].x_coord,
datapoints[i].y_coord,
color=colors[j],
marker='x',
label=str(wafernames[j]))
plt.legend()
plt.gcf().gca().add_artist(wafer_outline)
else:
plt.plot(datapoints[i].x_coord,
datapoints[i].y_coord,
color=colors[j],
marker='x')
def animate(i):
x_ = x[i]
y_ = y[i]
z_ = z[i]
n = int(i / tb) * float(tb / N)
print(i, n)
cm_ = cm.hsv(n)
ax.scatter(x_, y_, z_, s=40, alpha=0.3, marker="o", c=cm_)
def np_batch_colour_map(heat_map):
c = heat_map.shape[-1]
colour = []
for i in range(c):
colour.append(cm.hsv(float(i / c))[:3])
np_colour = np.array(colour)
colour_map = np.einsum('bijk,kl->bijl', heat_map, np_colour)
return colour_map
def batch_colour_map(heat_map):
c = heat_map.get_shape().as_list()[-1]
colour = []
for i in range(c):
colour.append(cm.hsv(float(i / c))[:3])
colour = tf.constant(colour)
colour_map = tf.einsum('bijk,kl->bijl', heat_map, colour)
return colour_map
def batch_colour_map(heat_map, device):
c = heat_map.shape[1]
colour = []
for i in range(c):
colour.append(cm.hsv(float(i / c))[:3]) # does that work?
colour = torch.tensor(colour, dtype=torch.float).to(device)
colour_map = contract('bkij, kl -> blij', heat_map, colour)
return colour_map
def np_batch_colour_map(heat_map, device):
c = heat_map.shape[1]
colour = []
for i in range(c):
colour.append(cm.hsv(float(i / c))[:3])
np_colour = np.array(colour).to(device)
colour_map = contract('bkij,kl->blij', heat_map, np_colour)
return colour_map
def show_histogram(values):
n, bins, patches = plt.hist(values.reshape(-1), 50, normed=1)
bin_centers = 0.5 * (bins[:-1] + bins[1:])
for c, p in zip(normalize(bin_centers), patches):
plt.setp(p, 'facecolor', cm.hsv(c))
plt.show()
def plot_2Ddata(X, y, dots_alpha=.5, noticks=False, ax=None):
ax = plt if ax is None else ax
colors = cm.hsv(np.linspace(0, .7, len(np.unique(y))))
for i, label in enumerate(np.unique(y)):
ax.scatter(X[y==label][:,0], X[y==label][:,1], color=colors[i], alpha=dots_alpha)
if noticks:
ax.set_xticks([])
ax.set_yticks([])
def getColColor(ch):
if ch >= 1 and ch <= 59: color = cm.hsv(0. / 8.)
elif ch >= 61 and ch <= 119: color = cm.hsv(1. / 8.)
elif ch >= 121 and ch <= 179: color = cm.hsv(2. / 8.)
elif ch >= 181 and ch <= 239: color = cm.hsv(3. / 8.)
elif ch >= 241 and ch <= 299: color = cm.hsv(4. / 8.)
elif ch >= 301 and ch <= 359: color = cm.hsv(5. / 8.)
elif ch >= 361 and ch <= 419: color = cm.hsv(6. / 8.)
elif ch >= 421 and ch <= 479: color = cm.hsv(7. / 8.)
return color
def command(paths):
""" Show a lowest elevation image. """
# order
index = dict(
NL60=0,
NL61=1,
nhb=2,
ess=3,
emd=4,
JAB=5,
)
# load
d_rang, d_elev, d_anth = {}, {}, {}
for p in paths:
with h5py.File(p, 'r') as h5:
for r in h5:
if r in d_rang or r == 'ase':
continue
d_rang[r] = h5[r]['range'][:]
d_elev[r] = h5[r]['elevation'][:]
d_anth[r] = h5[r].attrs['antenna_height']
radars = d_anth.keys()
elev = np.ma.empty((len(radars),) + d_rang[radars[0]].shape)
rang = np.ma.empty((len(radars),) + d_rang[radars[0]].shape)
anth = np.empty((len(radars), 1, 1))
for r in radars:
elev[index[r]] = np.ma.masked_equal(d_elev[r], config.NODATAVALUE)
rang[index[r]] = np.ma.masked_equal(d_rang[r], config.NODATAVALUE)
anth[index[r]] = float(d_anth[r]) / 1000
# calculate
theta = calc.calculate_theta(
rang=rang, elev=np.radians(elev), anth=anth,
)
alt = calc.calculate_height(
theta=theta, elev=np.radians(elev), anth=anth,
)
which = np.ma.where(
alt == alt.min(0),
np.indices(alt.shape)[0],
-1,
).max(0)
what = alt.min(0)
# colors
hue = cm.hsv(colors.Normalize(vmax=len(radars))(which), bytes=True)
sat = 1 - colors.Normalize(vmax=5, clip=True)(what)[..., np.newaxis]
hue[..., :3] *= sat
hue[sat.mask[..., 0]] = 255
Image.fromarray(hue).save('elevation_image.png')
return 0
def create_pred_movie_no_conf(conf, predList, moviename, outmovie, outtype):
predLocs, predscores, predmaxscores = predList
# assert false, 'stop here'
tdir = tempfile.mkdtemp()
cap = cv2.VideoCapture(moviename)
nframes = int(cap.get(cvc.FRAME_COUNT))
cmap = cm.get_cmap('jet')
rgba = cmap(np.linspace(0, 1, conf.n_classes))
fig = mpl.figure.Figure(figsize=(9, 4))
canvas = FigureCanvasAgg(fig)
for curl in range(nframes):
framein = myutils.readframe(cap, curl)
framein = crop_images(framein, conf)
fig.clf()
ax1 = fig.add_subplot(1, 2, 1)
ax1.imshow(framein[:, :, 0], cmap=cm.gray)
ax1.scatter(predLocs[curl, :, 0, 0], predLocs[curl, :, 0, 1], # hold=True,
c=cm.hsv(np.linspace(0, 1 - old_div(1., conf.n_classes), conf.n_classes)),
s=20, linewidths=0, edgecolors='face')
ax1.axis('off')
ax2 = fig.add_subplot(1, 2, 2)
if outtype == 1:
curpreds = predscores[curl, :, :, :, 0]
elif outtype == 2:
curpreds = predscores[curl, :, :, :, 0] * 2 - 1
rgbim = create_pred_image(curpreds, conf.n_classes)
ax2.imshow(rgbim)
ax2.axis('off')
fname = "test_{:06d}.png".format(curl)
# to printout without X.
# From: http://www.dalkescientific.com/writings/diary/archive/2005/04/23/matplotlib_without_gui.html
# The size * the dpi gives the final image size
# a4"x4" image * 80 dpi ==> 320x320 pixel image
canvas.print_figure(os.path.join(tdir, fname), dpi=80)
# below is the easy way.
# plt.savefig(os.path.join(tdir,fname))
tfilestr = os.path.join(tdir, 'test_*.png')
mencoder_cmd = "mencoder mf://" + tfilestr + " -frames " + "{:d}".format(
nframes) + " -mf type=png:fps=15 -o " + outmovie + " -ovc lavc -lavcopts vcodec=mpeg4:vbitrate=2000000"
os.system(mencoder_cmd)
cap.release()
def _on_update(self, histogram, rois):
if histogram not in self.map:
return
source, s_out = self.map[histogram]
N = len(rois)
data = source()
gray = self._make_gray(data)
s_out.data = regular_array2rgbx(gray)
for i in range(N):
color = (255 * plt_cm.hsv([float(i) / max(N, 10)])).astype('uint8')
color = regular_array2rgbx(color)
r = rois[i]
mask = (data < r.right) & (data >= r.left)
s_out.data[mask] = color
s_out.update_plot()
def plot_seimicity_rate(earthquakes, time = 'hour', figsize = (8,8)):
'''
Function get from Thomas Lecocq
http://www.geophysique.be/2013/09/25/seismicity-rate-using-obspy-and-pandas/
'''
m_range = (-1,11)
time = time.lower()
if time == 'second':
time_format = '%y-%m-%d, %H:%M:%S %p'
elif time == 'minute':
time_format = '%y-%m-%d, %H:%M %p'
elif time == 'hour':
time_format = '%y-%m-%d, %H %p'
elif time == 'day':
time_format = '%y-%m-%d'
elif time == 'month':
time_format = '%y-%m'
elif time == 'year':
time_format = '%y'
else:
time_format = '%y-%m-%d, %H %p'
df = eq2df(earthquakes)
#Arrange quakes by their magnitude and color appropiately
bins = np.arange(m_range[0], m_range[1])
labels = np.array(["[%i:%i)"%(i,i+1) for i in bins])
colors = [cm.hsv(float(i+1)/(len(bins)-1)) for i in bins]
df['Magnitude_Range'] = pd.cut(df['mag'], bins=bins, labels=False)
df['Magnitude_Range'] = labels[df['Magnitude_Range'].values]
df['Year_Month_day'] = [di.strftime(time_format) for di in df.index]
rate = pd.crosstab(df.Year_Month_day, df.Magnitude_Range)
rate.plot(kind='bar',stacked=True,color=colors,figsize=figsize)
plt.legend(loc='best')
plt.ylabel('Number of earthquakes')
plt.xlabel('Date and Time')
plt.tight_layout()
plt.grid()
plt.show()
def plot_mse(mse_list,label_list):
for i,mse in enumerate(mse_list):
c = cm.hsv(np.linspace(0,1,len(mse_list)+1))
data_x = range(mse.shape[0])
data_y = mse;
plt.plot(data_x,data_y,color=c[i,:])
plt.title('Sparse autoencoder training curve MSE')
plt.xlabel('Epoch')
plt.ylabel('MSE')
plt.legend(label_list,'upper right')
plt.grid(True)
plt.xlim(0,2000)
plt.ylim(0,100)
f = plt.gcf();
f.set_size_inches(19.2,10.8)
plt.savefig('../result_images/mnist_dictionary_training.png',dpi=100)
plt.close()
def gen_colors(clusters):
"""
Takes 'clusters' and creates a list of colors so a cluster has a color.
:param clusters: A flat list of integers where an integer represents which
cluster the information belongs to.
:type clusters: list
:returns: colorm : list
A list of colors obtained from matplotlib colormap cm.hsv. The
length of 'colorm' is the same as the number of distinct
clusters.
"""
import matplotlib.cm as cm
n = len(set(clusters))
colorm = [cm.hsv(i * 1.0 /n, 1) for i in xrange(n)]
return colorm
def DisplaySavedMapFrame(self, worldFrame, resourcesGRMaxE, frameNo, colours, creatSpec):
TileBlitSize = (int(self.tw*(self.RESIZE[0]/float(self.SIZE[0]))), int(self.tw*(self.RESIZE[1]/float(self.SIZE[1]))))
sizeRat0 = self.RESIZE[0]/float(self.SIZE[0])
sizeRat1 = self.RESIZE[1]/float(self.SIZE[1])
done = False
step = 0
while not done:
for event in pygame.event.get():
if event.type == pygame.QUIT:
done = True
pygame.quit()
return
if step == 0:
t0 = time.time()
self.screen.fill(self.WHITE)
resources = worldFrame[2]
for a,b in np.ndindex((resources.shape[0], resources.shape[1])):
x, y = self.gridWidth-a-1, self.gridHeight-b-1
image = pygame.transform.scale(self.gameMap.get_tile_image(x,y,0), TileBlitSize) #pre-scaled at load time
self.screen.blit(image, self.TransformMap(np.array([x, y])))
if resourcesGRMaxE[0][x][y] > 0:
if len(worldFrame) == 4:
resourcesGRMaxE[1][x][y] *= worldFrame[3]
tempTransPos = self.TransformResourcePos(np.array([x,y]))
polygonPos = [(tempTransPos[0], tempTransPos[1]+int((self.th/16.)*sizeRat1)), (tempTransPos[0]+int((self.tw*7./16.)*sizeRat0), tempTransPos[1]+int((self.th/2.)*sizeRat1)), (tempTransPos[0], tempTransPos[1]+int((self.th*15./16.)*sizeRat1)), (tempTransPos[0]-int((self.tw*7./16.)*sizeRat0), tempTransPos[1]+int((self.tw/4.)*sizeRat1))]
polygonColour = self.RED[0]*worldFrame[2][x][y]/float(resourcesGRMaxE[1][x][y])
pygame.draw.aalines(self.screen, [polygonColour, 0, 0], True, polygonPos, 1)
#pygame.draw.polygon(self.screen, PolygonColourArray[x][y][step], PolygonPosArray[x][y], 1)
t1 = time.time()
for i in xrange(len(worldFrame[0])):
for j in xrange(len(creatSpec)):
if worldFrame[0][i][0] == creatSpec[j][0]:
creaturePos = self.TransformPos(np.array([worldFrame[0][i][1], worldFrame[0][i][2]]))
creatureColour = cm.hsv(colours[j], bytes=True)[0:3]
pygame.draw.circle(self.screen, self.WHITE, creaturePos, 5)
pygame.draw.circle(self.screen, self.BLACK, creaturePos, 4)
pygame.draw.circle(self.screen, creatureColour, creaturePos, 2)
t2 = time.time()
print('Frame time = %s, for1 = %s, for2 = %s' % (time.time()-t0, t1-t0, t2-t1))
pygame.display.flip()
self.clock.tick(15)
step += 1
def plot_G(ax, Gs, weights, intersect):
G_x=np.arange(0,5,.001)
l = len(Gs)
G_ys = []
for i in xrange(l):
c = cm.hsv(float(i)/l,1)
mu = Gs[i][0]
var = Gs[i][1]
G_y = mlab.normpdf(G_x, mu, var**.5)*weights[i]
G_ys.append(G_y)
ax.plot(G_x,G_y,color=c)
ax.plot(mu,-.001,"^",ms=10,alpha=.7,color=c)
#ax.plot(G_x,np.power(G_ys[1]-G_ys[0],1),color='k')
if intersect[0] !=None:
ax.plot(intersect[0],intersect[1],"|",ms=10,alpha=.7,color='k')
ax.plot([0,5],[0,0],color='k')
def plot_seimicity_rate(earthquakes, time="hour", figsize=(12, 8)):
"""
Function get from Thomas Lecocq
http://www.geophysique.be/2013/09/25/seismicity-rate-using-obspy-and-pandas/
"""
m_range = (-1, 11)
time = time.lower()
if time == "second":
time_format = "%y-%m-%d, %H:%M:%S %p"
elif time == "minute":
time_format = "%y-%m-%d, %H:%M %p"
elif time == "hour":
time_format = "%y-%m-%d, %H %p"
elif time == "day":
time_format = "%y-%m-%d"
elif time == "month":
time_format = "%y-%m"
elif time == "year":
time_format = "%y"
else:
time_format = "%y-%m-%d, %H %p"
df = eq2df(earthquakes)
bins = np.arange(m_range[0], m_range[1])
labels = np.array(["[%i:%i)" % (i, i + 1) for i in bins])
colors = [cm.hsv(float(i + 1) / (len(bins) - 1)) for i in bins]
df["Magnitude_Range"] = pd.cut(df["mag"], bins=bins, labels=False)
df["Magnitude_Range"] = labels[df["Magnitude_Range"].values]
df["Year_Month_day"] = [di.strftime(time_format) for di in df.index]
rate = pd.crosstab(df.Year_Month_day, df.Magnitude_Range)
rate.plot(kind="bar", stacked=True, color=colors, figsize=figsize)
plt.legend(bbox_to_anchor=(1.20, 1.05))
plt.ylabel("Number of earthquakes")
plt.xlabel("Date and Time")
plt.show()
def simple_plot(self, fn_out):
cps = self.mus
plt.rc('grid',color='0.75',linestyle='l',linewidth='0.1')
fig, ax_arr = plt.subplots(1,3)
fig.set_figwidth(9)
fig.set_figheight(4)
axescolor = '#f6f6f6'
print ax_arr
print self.bics
print self.params
ax_arr[1].plot(self.params, self.bics)
n, bins, patches = ax_arr[0].hist(cps,alpha=.9,ec='none',normed=1,color='#8DABFC',bins=len(cps)/10)
#self.addGMM(gX.gmm, axarr[1,1], cps, gX.labels, overlaps)
G_x=np.arange(0,max(cps)+1,.1)
l = self.gmm.means.shape[0]
for i in xrange(l):
c = cm.hsv(float(i)/l,1)
mu = self.gmm.means[i,0]
#var = self.gmm.covars[i][0][0]
var = self.gmm.covars[i]
G_y = mlab.normpdf(G_x, mu, var**.5)*self.gmm.weights[i]
ax_arr[0].plot(G_x,G_y,color=c)
ax_arr[0].plot(mu,-.001,"^",ms=10,alpha=.7,color=c)
if np.amax(cps)<2:
ax_arr[0].set_xlim(0,2)
ylims = ax_arr[0].get_ylim()
if ylims[1] > 10:
ax_arr[0].set_ylim(0,10)
fig.sca(ax_arr[2])
dendro = hclust.dendrogram(self.Z, orientation='right')
ylims = ax_arr[2].get_ylim()
ax_arr[2].set_ylim(ylims[0]-1, ylims[1]+1)
fig.savefig(fn_out)
def draw_data(self, data):
totalsize = sum(zip(*data)[1]) # get sum of subentry sizes
unit = 1.5 * np.pi / totalsize
angle = 0.5 * np.pi
if self.log:
maxy = max(map(np.log2, zip(*data)[2]))
else:
maxy = max(zip(*data)[2])
for d in data:
relangle = unit * d[1]
if len(d[3]) > 0 or self.mode == 'user':
# scale colours since the legend occupies a quarter
scaledangle = (angle - 0.5*np.pi) * (2 / 1.5)
colour = cm.hsv(scaledangle/(2*np.pi))
else:
# colour = cm.Greys(scaledangle/(2*np.pi))
colour = "#999999"
if self.log:
# take logarithm to accomodate for big differences
y = np.log2(d[2])
else:
y = d[2]
bar = ax.bar(angle, y, width=relangle, bottom=maxy*0.2,
color=colour, label=d[0],
picker=True)
angle += relangle
if self.mode == 'dir':
desc = '{0}\n{1}G'.format(d[0], d[1])
elif self.mode == 'user':
desc = '{0}\n{1}%'.format(d[0], d[1])
self.draw_desc(bar[0], d, desc)
self.draw_legend(maxy)
fig.canvas.draw()
def plot_2d_GMMs(X, labels, means, covs, percentcontour=0.66, npoints=30):
"""
Given an observation array, a label vector (integer values), and GMM mean
and covariance parameters, plot the clusters and parameters.
"""
clabels = set(labels)
K = len(clabels)
if len(means) != len(covs) != K:
raise ValueError("Expecting the number of unique labels, means and"
"covariances to be the same!")
phi = np.linspace(-np.pi, np.pi, npoints)
circle = np.array([np.sin(phi), np.cos(phi)]).T
figure(figsize=(10, 10))
gca()
colors = cm.hsv(np.arange(K)/float(K))
for k, col in zip(clabels, colors):
# points
my_members = labels == k
scatter(X[my_members, 0], X[my_members, 1], c=col, marker='o', s=20)
# means
cluster_center = means[k, :]
scatter(cluster_center[0], cluster_center[1], c=col, marker='o', s=200)
# covariance
L = la.cholesky(np.array(covs[k]) * chi2.ppf(percentcontour, [3])
+ 1e-5 * np.eye(covs[k].shape[0]))
covpoints = circle.dot(L) + means[k, :]
plot(covpoints[:, 0], covpoints[:, 1], color=col, linewidth=3)
axis('tight')
axis('equal')
title('Clusters')
def plot_distances(x, y, labels):
print "----"
print labels
print x
print y
print "----"
fig, ax = plt.subplots()
colors = np.random.rand(21) # 21 datasets
dataset_dict = dict()
markers = dict()
markers['RAND'] = '>'
markers['SMAC'] = 'o'
markers['TPE'] = (5, 1)
# shape by strategy
# color by dataset
color_index = 0
for p in range(0, len(x)):
tmp = labels[p].split('.')
dataset = tmp[0]
dataset_index = datasets.index(dataset)
color = cm.hsv(dataset_index / 25., 1)
strategy = tmp[1]
plt.plot(x[p], y[p], marker=markers[strategy], c=color, alpha=.75, label=labels[p])
# plt.tight_layout()
plt.title('error variance vs configuration dissimilarity')
plt.xlabel('MCPS dissimilarity')
plt.ylabel('Error variance')
# TODO fix legend
# handles, labels = ax.get_legend_handles_labels()
# lgd = ax.legend(handles, labels, loc='center right', bbox_to_anchor=(0.5,-0.1), numpoints=1)
plt.savefig('../distances%s/_all.png' % suffix, dpi=200, bbox_inches='tight')
plt.close("all")
def __init__(self):
self.read_block_par_file()
self.nblocks = len(self.blocks)
self.fibers_per_block = len(self.blocks[1])
self.reach = self.fiber_reach()
self.colors = [cm.hsv(x) for x in np.linspace(0,1,len(self.blocks))]
def create_pred_movie(self, movie_name, out_movie, max_frames=-1, flipud=False, trace=True):
conf = self.conf
sess = self.init_net(0,True)
predLocs, pred_scores, pred_max_scores = self.classify_movie(movie_name, sess, end_frame=max_frames, flipud=flipud)
tdir = tempfile.mkdtemp()
cap = movies.Movie(movie_name)
nframes = int(cap.get_n_frames())
if max_frames > 0:
nframes = max_frames
fig = mpl.figure.Figure(figsize=(9, 4))
canvas = FigureCanvasAgg(fig)
sc = self.conf.unet_rescale
color = cm.hsv(np.linspace(0, 1 - 1./conf.n_classes, conf.n_classes))
trace_len = 30
for curl in range(nframes):
frame_in = cap.get_frame(curl)
if len(frame_in) == 2:
frame_in = frame_in[0]
if frame_in.ndim == 2:
frame_in = frame_in[:,:, np.newaxis]
frame_in = PoseTools.crop_images(frame_in, conf)
if flipud:
frame_in = np.flipud(frame_in)
fig.clf()
ax1 = fig.add_subplot(1, 1, 1)
if frame_in.shape[2] == 1:
ax1.imshow(frame_in[:,:,0], cmap=cm.gray)
else:
ax1.imshow(frame_in)
xlim = ax1.get_xlim()
ylim = ax1.get_ylim()
ax1.scatter(predLocs[curl, :, 0],
predLocs[curl, :, 1],
c=color*0.9, linewidths=0,
edgecolors='face',marker='+',s=45)
if trace:
for ndx in range(conf.n_classes):
curc = color[ndx,:].copy()
curc[3] = 0.5
e = np.maximum(0,curl-trace_len)
ax1.plot(predLocs[e:curl,ndx,0],
predLocs[e:curl, ndx, 1],
c = curc,lw=0.8)
ax1.axis('off')
ax1.set_xlim(xlim)
ax1.set_ylim(ylim)
fname = "test_{:06d}.png".format(curl)
# to printout without X.
# From: http://www.dalkescientific.com/writings/diary/archive/2005/04/23/matplotlib_without_gui.html
# The size * the dpi gives the final image size
# a4"x4" image * 80 dpi ==> 320x320 pixel image
canvas.print_figure(os.path.join(tdir, fname), dpi=160)
# below is the easy way.
# plt.savefig(os.path.join(tdir,fname))
tfilestr = os.path.join(tdir, 'test_*.png')
mencoder_cmd = "mencoder mf://" + tfilestr + " -frames " + "{:d}".format(
nframes) + " -mf type=png:fps=15 -o " + out_movie + " -ovc lavc -lavcopts vcodec=mpeg4:vbitrate=2000000"
os.system(mencoder_cmd)
cap.close()
tf.reset_default_graph()
import numpy as np
import matplotlib.pylab as plt
import matplotlib.cm as cm
loci = 10000
runs = 200
data = np.zeros((runs,loci))
i = 0
for line in open('out.txt', 'rb'):
hist = line.split()
data[i,int(hist[0])-1] = int(hist[2])
if (int(hist[0]) == loci):
i+=1
for i in range(15):
print sum(data[i,:])
plt.plot(range(loci),data[i,:], 'o', color=cm.hsv(i/15.,1), label='Generation %i'%(5*i))
plt.xlabel("Block Width")
plt.ylabel("Count")
plt.legend()
plt.show()
#convert dates into float numbers (can be inefficient with a large amount of data)
x = [date2num(date) for (date, value) in data]
y = [value for (date, value) in data]
#preparing to plot
fig = plt.figure()
graph = fig.add_subplot(111)
graph.grid(True)
y_max = 70000 # max range of y-axis
width = 0.3
plt.yticks(range(0, 75000, 2500))
plt.axis([x[0]-1, x[len(x)-1]+1, 0, y_max])
# Plot the data
for i in range(len(data)):
graph.bar(data[i][0], data[i][1], width=width, color=cm.hsv(int(data[i][1]/255)))
#formatting dates
dateFmt = mpl.dates.DateFormatter('%Y-%m-%d')
graph.xaxis.set_major_formatter(dateFmt)
daysLoc = mpl.dates.DayLocator(interval=1)
graph.xaxis.set_major_locator(daysLoc)
fig.autofmt_xdate(bottom=0.15, rotation=45) # adjust for date labels display
fig.subplots_adjust(left=0.15)
#annotations and titles
x_label = plt.xlabel('\nDate')
plt.setp(x_label, fontsize=24, color='black')
y_label = plt.ylabel('Energy consumption [W]\n')
plt.setp(y_label, fontsize=24, color='black')
title = plt.title('Energy consumption per day\n')
def differential_displacement(base_system, disl_system, burgers_vector, plot_range,
neighbor_list = None, neighbor_list_cutoff = None, component = 'standard',
axes = None, plot_scale = 1, save_file = None, show = True):
"""
Function for generating a differential displacement plot for a
dislocation containing system.
Arguments:
base_system -- atomman.System defect-free reference system corresponding
to disl_system.
disl_system -- atomman.System system containing the defect.
burgers_vector -- 3x1 numpy array for the dislocation's Burgers vector.
plot_range -- 3x3 numpy array specifying the Cartesian space to include
atoms in the plot.
Optional Keyword Arguments:
neighbor_list -- pre-computed neighbor list for base_system.
neighbor_list_cutoff -- cutoff for computing a neighbor list for
base_system.
component -- indicates the style of the calculation to use.
axes -- 3x3 numpy array indicating the crystallographic
axes corresponding to the box's Cartesian axes.
If given, only used for transforming the
burgers_vector.
plot_scale -- scalar for multiplying the magnitude of the differential
displacement arrows.
save_file -- if given then the plot will be saved to a file with this name.
show -- Boolean flag for showing the figure. Default is True.
"""
#Burgers vector setup
if axes is not None:
T = am.tools.axes_check(axes)
burgers_vector = T.dot(burgers_vector)
burgers_vector_magnitude = np.linalg.norm(burgers_vector)
burgers_vector_uvect = burgers_vector / burgers_vector_magnitude
#neighbor list setup
if neighbor_list is not None:
assert neighbor_list_cutoff is None, 'neighbor_list and neighbor_list_cutoff cannot both be given'
elif neighbor_list_cutoff is not None:
neighbor_list = am.NeighborList(base_system, neighbor_list_cutoff)
elif 'neighbors' in base_system.prop:
neighbor_list = base_system.prop['neighbors']
elif 'nlist' in base_system.prop:
neighbor_list = base_system.prop['nlist']
if isinstance(neighbor_list, am.NeighborList):
objectnlist = True
else:
objectnlist = False
#Identify atoms in plot range
base_pos = base_system.atoms_prop(key='pos')
plot_range_indices = np.where((base_pos[:, 0] > plot_range[0,0]) & (base_pos[:, 0] < plot_range[0,1]) &
(base_pos[:, 1] > plot_range[1,0]) & (base_pos[:, 1] < plot_range[1,1]) &
(base_pos[:, 2] > plot_range[2,0]) & (base_pos[:, 2] < plot_range[2,1]))[0]
#initial plot setup and parameters
fig, ax1, = plt.subplots(1, 1, squeeze=True, figsize=(7,7), dpi=72)
ax1.axis([plot_range[0,0], plot_range[0,1], plot_range[1,0], plot_range[1,1]])
atom_circle_radius = burgers_vector_magnitude / 10
arrow_width_scale = 1. / 200.
#Loop over all atoms i in plot range
for i in plot_range_indices:
#Plot a circle for atom i
color = cm.hsv((base_pos[i, 2] - plot_range[2,0]) / (plot_range[2,1] - plot_range[2,0]))
ax1.add_patch(mpatches.Circle(base_pos[i, :2], atom_circle_radius, fc=color, ec='k'))
#make list of all neighbors for atom i
if objectnlist:
neighbor_indices = neighbor_list[i]
else:
neighbor_indices = neighbor_list[i, 1 : neighbor_list[i, 0] + 1]
#Compute distance vectors between atom i and its neighbors for both systems
base_dvectors = base_system.dvect(int(i), neighbor_indices)
disl_dvectors = disl_system.dvect(int(i), neighbor_indices)
#Compute differential displacement vectors
dd_vectors = disl_dvectors - base_dvectors
#Compute centerpoint positions for the vectors
arrow_centers = base_pos[i] + base_dvectors / 2
if component == 'standard':
#compute unit distance vectors
base_uvectors = base_dvectors / np.linalg.norm(base_dvectors, axis=1)[:,np.newaxis]
#compute component of the dd_vector parallel to the burgers vector
dd_components = dd_vectors.dot(burgers_vector_uvect)
dd_components[dd_components > burgers_vector_magnitude / 2] -= burgers_vector_magnitude
dd_components[dd_components < -burgers_vector_magnitude / 2] += burgers_vector_magnitude
#scale arrow lengths and vectors
arrow_lengths = base_uvectors * dd_components[:,np.newaxis] * plot_scale
arrow_widths = arrow_width_scale * dd_components * plot_scale
#plot the arrows
for center, length, width in zip(arrow_centers, arrow_lengths, arrow_widths):
if width > 1e-7:
ax1.quiver(center[0], center[1], length[0], length[1], pivot='middle',
angles='xy', scale_units='xy', scale=1, width=width)
elif component == 'xy':
#scale arrow lengths and vectors
arrow_lengths = dd_vectors[:, :2] * plot_scale
arrow_lengths[dd_vectors[:, 2] > 0] *= -1
arrow_widths = arrow_width_scale * (arrow_lengths[:,0]**2+arrow_lengths[:,1]**2)**0.5
#plot the arrows
for center, length, width in zip(arrow_centers, arrow_lengths, arrow_widths):
if width > 1e-7:
ax1.quiver(center[0], center[1], length[0], length[1], width=width,
pivot='middle', angles='xy', scale_units='xy', scale=1)
if save_file is not None:
plt.savefig(save_file, dpi=800)
if show == False:
plt.close(fig)
plt.show()
def file_size_over_time_plot(plot_type="bar", given_machine=None, trim=True, \
start_date=None, return_svg_data=False):
"""Makes a plot of the amount of space the project files took up at
specific times.
"""
# Get the data and structure it
data = get_formatted_data()
data = sorted(data, key=itemgetter(3))
grouped_data = [list(g) for k, g in itertools.groupby(data, itemgetter(3))]
sorted_data = trim_data(grouped_data, trim)
if start_date is not None:
sorted_data = [p for p in sorted_data if p[1][0] > start_date]
# Add the additional days to the project tp use when plotting
for project in sorted_data:
for i in range(1, len(project[0])):
project[1].append(project[1][0] + datetime.timedelta(days=i))
# Plot
fig = plt.figure()
ax = fig.add_subplot(111)
stack_heights = defaultdict(int)
bytes_per_gigabyte = 1024. ** 3
machines = set([])
for group in sorted_data:
machines.add(group[2])
mc_val = dict(zip(machines, [float(i) / len(machines) for i in range(len(machines))]))
if given_machine is not None:
filtered_grouped_data = [group for group in sorted_data if group[2] == given_machine]
sorted_data = filtered_grouped_data
for i, group in enumerate(sorted_data):
clr = cm.hsv(mc_val[group[2]])
sizes = [s / bytes_per_gigabyte for s in group[0]]
days = group[1]
heights = []
for day in days:
heights.append(stack_heights[day])
if plot_type == 'bar':
ax.bar(days, sizes, bottom=heights, color=clr, width=1.0, lw=0.1)
for size, day in zip(sizes, days):
stack_heights[day] += size
plt.ylabel('Size (GB)')
figure_title = 'Dataset sizes'
if given_machine is not None:
figure_title += ' - Machine ' + given_machine
ax.set_title(figure_title)
if plot_type == 'plot':
sorted_stacked = sorted(stack_heights.items(), key=itemgetter(0))
days = [l[0] for l in sorted_stacked]
stacks = [l[1] for l in sorted_stacked]
zip_of_data = dict(zip(days, stacks))
daylist = [days[0] + datetime.timedelta(days=x) for x in range(0, (days[-1] - days[0]).days)]
stacklist = []
for day in daylist:
stacklist.append(zip_of_data.get(day, 0))
plt.plot(daylist, stacklist)
# fig.savefig("../sizegraphing/stacked_sizes.pdf")
if return_svg_data:
fig.set_size_inches(10, 2)
svg_data = get_svg_data(fig)
return svg_data
else:
plt.show()
def create_pred_movie_trx(self, movie_name, out_movie, trx, fly_num, max_frames=-1, start_at=0, flipud=False, trace=True):
conf = self.conf
sess = self.init_net(0,True)
predLocs = self.classify_movie_trx(movie_name, trx, sess, end_frame=max_frames, flipud=flipud, start_frame=start_at)
tdir = tempfile.mkdtemp()
cap = movies.Movie(movie_name,interactive=False)
T = sio.loadmat(trx)['trx'][0]
n_trx = len(T)
end_frames = np.array([x['endframe'][0,0] for x in T])
first_frames = np.array([x['firstframe'][0,0] for x in T]) - 1
if max_frames < 0:
max_frames = end_frames.max()
nframes = max_frames - start_at
fig = mpl.figure.Figure(figsize=(8, 8))
canvas = FigureCanvasAgg(fig)
sc = self.conf.unet_rescale
color = cm.hsv(np.linspace(0, 1 - 1./conf.n_classes, conf.n_classes))
trace_len = 3
cur_trx = T[fly_num]
c_x = None
c_y = None
for curl in range(nframes):
fnum = curl + start_at
frame_in = cap.get_frame(curl+start_at)
if len(frame_in) == 2:
frame_in = frame_in[0]
if frame_in.ndim == 2:
frame_in = frame_in[:,:, np.newaxis]
trx_fnum = fnum - first_frames[fly_num]
x = int(round(cur_trx['x'][0, trx_fnum])) - 1
y = int(round(cur_trx['y'][0, trx_fnum])) - 1
theta = -cur_trx['theta'][0, trx_fnum]
R = [[np.cos(theta), -np.sin(theta)], [np.sin(theta), np.cos(theta)]]
# -1 for 1-indexing in matlab and 0-indexing in python
if c_x is None:
c_x = x; c_y = y;
if (np.abs(c_x - x) > conf.imsz[0]*3./8.*2.) or (np.abs(c_y - y) > conf.imsz[0]*3./8.*2.):
c_x = x; c_y = y
assert conf.imsz[0] == conf.imsz[1]
frame_in, _ = multiResData.get_patch_trx(frame_in, c_x, c_y, -math.pi/2, conf.imsz[0]*2, np.zeros([2, 2]))
frame_in = frame_in[:, :, 0:conf.imgDim]
if flipud:
frame_in = np.flipud(frame_in)
fig.clf()
ax1 = fig.add_subplot(1, 1, 1)
if frame_in.shape[2] == 1:
ax1.imshow(frame_in[:,:,0], cmap=cm.gray)
else:
ax1.imshow(frame_in)
xlim = ax1.get_xlim()
ylim = ax1.get_ylim()
hsz_p = conf.imsz[0]/2 # half size for pred
hsz_s = conf.imsz[0] # half size for showing
for fndx in range(n_trx):
ct = T[fndx]
if (fnum < first_frames[fndx]) or (fnum>=end_frames[fndx]):
continue
trx_fnum = fnum - first_frames[fndx]
x = int(round(ct['x'][0, trx_fnum])) - 1
y = int(round(ct['y'][0, trx_fnum])) - 1
theta = -ct['theta'][0, trx_fnum] - math.pi/2
R = [[np.cos(theta), -np.sin(theta)], [np.sin(theta), np.cos(theta)]]
# curlocs = np.dot(predLocs[curl,fndx,:,:]-[hsz_p,hsz_p],R)
curlocs = predLocs[curl,fndx,:,:] #-[hsz_p,hsz_p]
ax1.scatter(curlocs[ :, 0]*sc - c_x + hsz_s,
curlocs[ :, 1]*sc - c_y + hsz_s,
c=color*0.9, linewidths=0,
edgecolors='face',marker='+',s=30)
if trace:
for ndx in range(conf.n_classes):
curc = color[ndx,:].copy()
curc[3] = 0.5
e = np.maximum(0,curl-trace_len)
# zz = np.dot(predLocs[e:(curl+1),fndx,ndx,:]-[hsz_p,hsz_p],R)
zz = predLocs[e:(curl+1),fndx,ndx,:]
ax1.plot(zz[:,0]*sc - c_x + hsz_s,
zz[:,1]*sc - c_y + hsz_s,
c = curc,lw=0.8,alpha=0.6)
ax1.set_xlim(xlim)
ax1.set_ylim(ylim)
ax1.axis('off')
fname = "test_{:06d}.png".format(curl)
# to printout without X.
# From: http://www.dalkescientific.com/writings/diary/archive/2005/04/23/matplotlib_without_gui.html
# The size * the dpi gives the final image size
# a4"x4" image * 80 dpi ==> 320x320 pixel image
canvas.print_figure(os.path.join(tdir, fname), dpi=300)
# below is the easy way.
# plt.savefig(os.path.join(tdir,fname))
tfilestr = os.path.join(tdir, 'test_*.png')
mencoder_cmd = "mencoder mf://" + tfilestr + " -frames " + "{:d}".format(
nframes) + " -mf type=png:fps=15 -o " + out_movie + " -ovc lavc -lavcopts vcodec=mpeg4:vbitrate=2000000"
os.system(mencoder_cmd)
cap.close()
tf.reset_default_graph()
sel_list = np.sort(toa_sel[0].keys()).astype(list)
# In[9]:
for i,n in enumerate(nums):
form = {'num':n,'surf':srf_str[surf[i]],'lbl':labels[i],'aod':aods_calipso[i]}
fig,ax = plt.subplots(2,1,figsize=(12,9))
ax[0].hist(dftoa[i],bins=40,alpha=1.0,edgecolor='None',label='all retrievals')
ax[0].axvline(np.mean(dftoa[i]),color='k',lw=3,label='Mean')
ax[0].axvline(np.median(dftoa[i]),color='grey',ls='--',lw=2,label='Median')
cs = cm.hsv(np.arange(27)/27.0)
ms = ['s','*','x','d']
for j,k in enumerate(np.sort(toa_sel[i].keys())):
ax[0].axvline(toa_sel[i][k],lw=1,label=k,ls='-',color=tuple(cs[j,:]),marker=ms[j%4],ms=10)
ax[0].axvspan(np.mean(dftoa[i])-np.std(dftoa[i]), np.mean(dftoa[i])+np.std(dftoa[i]), alpha=0.2, color='red',label='Std')
ax[0].set_xlabel('DARE TOA [W/m$^2$]')
ax[0].set_ylabel('Number of solutions')
box = ax[0].get_position()
ax[0].set_position([box.x0, box.y0, box.width * 0.65, box.height])
ax[1].hist(dfsfc[i],bins=40,alpha=1.0,edgecolor='None',label='all retrievals')
ax[1].axvline(np.mean(dfsfc[i]),color='k',lw=3,label='Mean')
ax[1].axvline(np.median(dfsfc[i]),color='grey',ls='--',lw=2,label='Median')
for j,k in enumerate(np.sort(sfc_sel[i].keys())):
ax[1].axvline(sfc_sel[i][k],lw=1,label=k,ls='-',color=tuple(cs[j,:]),marker=ms[j%4],ms=10)
x = np.linspace(1, 10, 100) y = np.linspace(1, 2*np.pi, 100) [X, Z] = np.meshgrid(x, y) scale = 256.0/360.0 # Auswahl eines Zufaelligen Winkels auf dem Farbkreis winkel = np.random.random_integers(0, 360, 1) # Bestimmung des gegenueberliegenden Winkels co_winkel = (winkel + 180) % 360 print winkel print co_winkel winkel_scal = int(winkel * scale) co_winkel_scal = int(co_winkel * scale) print cm.hsv(winkel_scal) print cm.hsv(co_winkel_scal) ax1 = plt.subplot(1, 2, 1) ax1.patch.set_facecolor(cm.hsv(winkel_scal)) #plt.pcolor(x, y, Z) #plt.autoscale(axis='both', tight='both') ax2 = plt.subplot(1, 2, 2) ax2.patch.set_facecolor(cm.hsv(co_winkel_scal)) plt.show()
def process_files(xml_files):
"""
Main entry point.
"""
### Define xml files.
xml_files = sys.argv[1:]
so_many = len(xml_files)
print "****This script is about to make png files for %s xml files. ****" % so_many
for file in xml_files:
### Parse XML file.
root = etree.parse(file)
### Remove extension from xml filename.
file_name = os.path.splitext(file)[0]
### Extract plate type and barcode.
plate = root.xpath("/*/Header/Parameters/Parameter[@Name='Plate']")[0]
plate_type = plate.attrib['Value']
try:
bar = root.xpath("/*/Plate/BC")[0]
barcode = bar.text
except:
barcode = 'no barcode'
### Define Sections.
Sections = root.xpath("/*/Section")
much = len(Sections)
print "****The xml file " + file + " has %s data sections:****" % much
for sect in Sections:
print sect.attrib['Name']
for i, sect in enumerate(Sections):
### Extract Parameters for this section.
path = "/*/Section[@Name='" + sect.attrib['Name'] + "']/Parameters"
parameters = root.xpath(path)[0]
print "parameters:"
print parameters
### Parameters are extracted slightly differently depending on Absorbance or Fluorescence read.
# Attach these to title1, title2, or title3, depending on section which will be the same for all 4 files.
if parameters[0].attrib['Value'] == "Absorbance":
result = extract(["Mode", "Wavelength Start", "Wavelength End", "Wavelength Step Size"], parameters)
globals()["title"+str(i)] = '%s, %s, %s, %s' % tuple(result)
else:
result = extract(["Gain", "Excitation Wavelength", "Emission Wavelength", "Part of Plate", "Mode"], parameters)
globals()["title"+str(i)] = '%s, %s, %s, \n %s, %s' % tuple(result)
print "****The %sth section has the parameters:****" %i
print globals()["title"+str(i)]
### Extract Reads for this section.
Sections = root.xpath("/*/Section")
reads = root.xpath("/*/Section[@Name='" + sect.attrib['Name'] + "']/*/Well")
wellIDs = [read.attrib['Pos'] for read in reads]
data = [(s.text, float(s.attrib['WL']), r.attrib['Pos'])
for r in reads
for s in r]
dataframe = pd.DataFrame(data, columns=['fluorescence','wavelength (nm)','Well'])
### dataframe_rep replaces 'OVER' (when fluorescence signal maxes out) with '3289277', an arbitrarily high number
dataframe_rep = dataframe.replace({'OVER':'3289277'})
dataframe_rep[['fluorescence']] = dataframe_rep[['fluorescence']].astype('float')
### Create large_dataframe1, large_dataframe2, and large_dataframe3 that collect data for each section
### as we run through cycle through sections and files.
globals()["dataframe_pivot"+str(i)] = pd.pivot_table(dataframe_rep, index = 'wavelength (nm)', columns= ['Well'])
print 'The max fluorescence value in this dataframe is %s'% globals()["dataframe_pivot"+str(i)].values.max()
globals()["large_dataframe"+str(i)] = pd.concat([globals()["large_dataframe"+str(i)],globals()["dataframe_pivot"+str(i)]])
### Plot, making a separate png for each section.
for i, sect in enumerate(Sections):
section_name = sect.attrib['Name']
path = "/*/Section[@Name='" + sect.attrib['Name'] + "']/Parameters"
parameters = root.xpath(path)[0]
if parameters[0].attrib['Value'] == "Absorbance":
section_ylim = [0,0.2]
else:
section_ylim = [0,40000]
Alphabet = ['A','B','C','D','E','F','G','H']
fig, axes = plt.subplots(nrows=3, ncols=3, figsize=(12, 12))
for j,A in enumerate(Alphabet):
for k in range(1,12):
try:
globals()["large_dataframe"+str(i)].fluorescence.get(A + str(k)).plot(ax=axes[(j/3)%3,j%3], title=A, c=cm.hsv(k*15), ylim=section_ylim, xlim=[240,800])
except:
print "****No row %s.****" %A
fig.suptitle('%s \n %s \n Barcode = %s' % (globals()["title"+str(i)], plate_type, barcode), fontsize=14)
fig.subplots_adjust(hspace=0.3)
plt.savefig('%s_%s.png' % (file_name, section_name))
return
def __init__(self):
self.TARGET_FPS = 30
cam_w,cam_h=(640,480)
timer_w=480
# self.resolution = (cam_w+timer_w,cam_h)
pygame.init()
pygame.mouse.set_visible(False)
# get resolution
# OVERRIDE - THIS IS SUDDENLY SUPER BUGGY ON MY MACHINE (BUT NOT IAN'S)???
# self.fullresolution = (int(pygame.display.Info().current_w), int(pygame.display.Info().current_h))
# self.smallresolution = (int(pygame.display.Info().current_w*2/3), int(pygame.display.Info().current_h*2/3))
self.fullresolution = (1024,768)
self.smallresolution = (int(self.fullresolution[0]*2.0/3),int(self.fullresolution[1]*2.0/3))
#window = pygame.display.set_mode((w,h), DOUBLEBUF)
#window = pygame.display.set_mode((w,h), FULLSCREEN)
if options.startfullscreen:
self.resolution = self.fullresolution
window = pygame.display.set_mode(self.resolution,pygame.FULLSCREEN)
self.fullscreen = 1
else:
self.resolution = self.smallresolution
window = pygame.display.set_mode(self.resolution) # do not start full
self.fullscreen = 0
print self.fullresolution
print self.resolution
self.sounds = Sounds()
#ISPIRO: Load goal image. Pygame handles png transparency gracefully
self.ball = pygame.image.load("img/gray.png")
self.ball_w = self.ball.get_width()
self.ball_h = self.ball.get_height()
self.brush = pygame.image.load("img/small.png")
self.brush_w = self.brush.get_width()
self.brush_h = self.brush.get_height()
self.vortex = pygame.image.load("img/vortex.png");
self.vortex_w = self.vortex.get_width()
self.vortex_h = self.vortex.get_height()
self.sum_surface = pygame.Surface((10,10))
self.font = pygame.font.SysFont(None,80)
if options.vicon_file is not None:
self.simulation_mode = True
else:
self.simulation_mode = False
print "Running in live mode. "\
"Possession will hang here if you are not connected to a Vicon Proxy server"
if self.simulation_mode:
self.f = open(options.vicon_file,'r')
# should we read ahead?
for i in xrange(options.line):
self.f.readline()
else:
# Initialize the object...
print "Waiting for Vicon..."
self.vp = ViconProxy()
if options.objects is None:
print "Automatic object detection mode"
while options.objects is None:
print "Looking for objects..."
options.objects = self.lookfor_objects()
# Handle events
self.handle_events()
else:
print "Objects are defined on command line"
try:
assert(options.objects is not None)
except:
print "Make sure you define 1 or more vicon objects through -o"
sys.exit(1)
self.set_surfaces()
# ISPIRO: Need a mask image for blitting circles
# original mask to match camera
self.mask = pygame.Surface((options.camerawidth,options.cameraheight))
# resized mask
self.bigmask = pygame.Surface((self.camsurface_w,self.camsurface_h))
self.cameras = []
for c in options.cameras:
self.cameras.append(Camera(c,img_size = (options.camerawidth,options.cameraheight),fps=self.TARGET_FPS,mirrored=options.mirrored))
self.balls = []
for o in options.objects:
self.balls.append(Ball(self.f if self.simulation_mode else self.vp,o) )
# set up team colors
if options.boygirl:
# we know there are only two teams
self.teamcolors = [cm.hsv(0.61),cm.hsv(0.86)]
else:
self.teamcolors = [cm.jet(x) for x in np.linspace(0.2,0.8,options.numteams)]
# set up object colors (using a different colormap)
# self.objectcolors = [cm.spring(x) for x in np.linspace(0,1,len(options.objects))]
self.objectcolors = [cm.summer(x) for x in np.linspace(0,1,len(options.objects))]
self.score = [0]*options.numteams
# self.update_score()
self.accumulator = 0
self.digit = options.game_time
self.clock = pygame.time.Clock()
[('entityListName', '50a'), ('intervalLow', 'f4'), ('unjudged', '50a'), ('judgmentLevel', 'd4'), ('metric', '50a'),
('mean', 'f4'), ('stdev', 'f4'), ('intervalType', '50a')])
def createStatsRecord(entityListName, intervalLow, unjudgedAs, judgmentLevel, metricname, mean, stdev, intervalType):
return np.array([(entityListName, intervalLow, unjudgedAs, judgmentLevel, metricname, mean, stdev, intervalType)],
dtype=stats_dtype)
records = []
fig = plt.figure()
allteams = ['CWI', 'LSIS', 'PRIS', 'SCIAITeam', 'UMass_CIIR', 'UvA', 'helsinki', 'hltcoe', 'igpi2012', 'udel_fang',
'uiucGSLIS']
teamColors = {team: cm.hsv(1. * i / len(allteams), 1) for i, team in enumerate(np.unique(allteams))}
print teamColors
def teamColor(team):
return teamColors[team]
teamss = []
def createWeightPlot(prefix, entityList, title):
if len(entityList) == 1:
entityListName = entityList[0]
else:
